Acoustic Design and Predictive Assessments

Acoustic comfort is a crucial aspect influencing personal well-being. Achieving acoustic comfort goals involves assessing whether the acoustic environment is suitable for the building’s intended use, evaluating the acoustic impact generated by new constructions on existing buildings and activities in the area, and meticulous interior and building element design to maximize the acoustic performance of the building and its spaces.

The predictive assessment of climate and acoustic impact
Predictive assessments of climate and acoustic impact involve estimating the influence of existing and future noise sources on sensitive receptors in the study area. Acoustic climate assessment aims to ensure that the site where a noise-sensitive development (residences, schools, hospitals, parks) is planned is characterized by sound levels compatible with the intended use. Impact acoustic assessment is necessary to anticipate the acoustic effects associated with the construction and operation of potentially noisy facilities and structures.

The predictive assessment of acoustic requirements for buildings
The predictive assessment of passive acoustic requirements of buildings involves a calculation verification of the in-situ soundproofing performance of newly constructed building and plant components, with reference to the limit values defined based on the intended use, pursuant to D.P.C.M. 5/12/97 “Determination of the passive acoustic requirements of buildings.” This assessment is necessary within the building and authorization procedures related to buildings used for residence, offices, hospitality, hospitals, schools, recreational activities, worship, and commercial activities (or similar).

Acoustic Design
The predictive assessment of the values assumed by the acoustic parameters characterizing listening and acoustic comfort is carried out using advanced numerical simulation software, graphically presented through easily understandable maps. Based on the obtained results, spatial configuration solutions and finishing materials with suitable characteristics for achieving optimal acoustic conditions for the intended use of the space are proposed.